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7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
VITU N I V E R S I T Y
(Estd. u/s 3 of UGC Act 1956)
School of Mechanical and Building Sciences
B.Tech II Semester
Eng ineer ing Graph ics I I
Tu to r i a l s
Tu t o r i a l I
Sect ion o f so l ids(Regular solids, prisms)
1. A cube of side 25mm rests on the HP on one of its faces with a vertical faceinclined at 35 to the VP. A plane perpendicular to the HP and parallel to the
VP cuts the cube 10mm away from the axis and further away from the VP.
Draw the top and sectional front views.
2. A cube of side 25mm rests on the HP on one of its faces with a vertical faceinclined at 35 to the VP. It is cut by a plane perpendicular to the VP and
inclined at 35 to the HP and meeting the axis at 20mm above the HP. Draw
the front view and sectional top view and the true shape of the section.
3. A hexagonal prism of base side 30mm and axis length 70mm rests on the HPon one of its rectangular faces with its axis perpendicular to the VP. It is cut
by a plane inclined at 30 to the VP. The cutting plane meets the axis at a
distance of 30mm from one end. Draw the top and sectional elevation and
true shape of the section.
4. A pentagonal prism of base side 40mm and length 80mm lies on the HP onone of its regular faces with its axis inclined at 45 to the VP. It is cut by a
plane parallel to VP that meets the axis the axis at 16mm from one end.
Draw the top view and sectional elevation of the prism.
5. A square prism, of side of base 40mm and axis 60mm long, rests its base onH.P. such that one of its rectangular faces is inclined at 30 to V.P. A sectional
plane perpendicular to H.P. and inclined at 60 to V.P. passes through the
prism such that a rectangular face which is making 60 with V.P. is cut into
two halves.
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l I I
Sect ion o f so l ids(Cones, Pyramid, Cylinders)
1. A square pyramid of base side 20mm and the altitude 40mm rests on the HPon its base with base edges equally inclined to the VP. It is cut by a plane
perpendicular to the VP and inclined at 30 to the HP meeting the axis at
21mm above the HP. Draw the sectional plan and the true shape of the
section.
2. A hexagonal pyramid of base side 20mm and axis 55mm rests on the HP onits base with two edges parallel to the VP. It is cut by a vertical plane
inclined at 30 to the VP and cutting the pyramid at 5mm from the plan of
the axis. Draw the top view, sectional front view and an auxiliary elevation
parallel to the cutting plane.
3. A tetrahedron of edge 60mm rests on the HP on one of its faces such that onone of the edges of the resting face is perpendicular to the VP. It is cut by a
plane perpendicular to the VP and inclined to the HP in such a way that the
true shape of the section is an isosceles triangle of base 40mm and altitude
30mm. Find the inclination of the cutting plane with the HP. Also draw the
front view, sectional top view and true shape of the section.
4. A cylinder of diameter 40mm and height 50mm rests on its base on the HP.It is cut by a plane perpendicular to the VP and inclined at 50 to the HP. The
cutting plane meets the axis at a distance of 15mm from the top. Draw the
front view, sectional plan and the true shape of the section.
5. A cone of base diameter 40mm and altitude 55mm rests on its base on theHP. It is cut by a vertical plane parallel to the VP at a distance of 6mm from
the axis. The axis is nearer to the VP than the cutting plane. Draw the top
view and sectional front view.
7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r ia l I I I
Deve lopm en t o f su r faces(Regular solids, prisms, cylinders [Truncated solids])
1. Develop the lateral surface of a pentagonal prism of side of base 25mm andheight 50mm.
2. A hexagonal prism edge of base 20mm and axis 50mm long, rests with itsbase on H.P such that one of its rectangular faces is parallel to V.P. It is cut
by a plane perpendicular to V.P and inclined at 45degree to the H.P and
passing through the right corner of top face of prism. Draw the development
of cut prism.
3. A cylinder of 45mm base diameter and 55mm long rests with its base onH.P. It is cut by a plane perpendicular to V.P, inclined at 60 degree to the
H.P and passing through a point on the axis at a distance of 35mm from the
base. Develop the lateral surface of truncated prism.
4. A cube of 40mm edge stands on one of its faces on H.P with a vertical facemaking 45 degree to the V.P. A horizontal hole of 30mm diameter is drivedcentrally through the cube such that the hole passes through the opposite
vertical edges of the cube. Obtain the development of the lateral surfaces of
the cube with the hole.
5. Draw the development of the lateral surfaces of a square prism side of base25mm and height 50mm resting with the base on H.P and edge of base
parallel to V.P.
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l I V
Deve lopm en t o f su r faces(Cone, Pyramids, Elbow, Funnels)
1. A triangular pyramid side of base 35mm and height 60mm stands with thebase on H.P. It is cut by a plane perpendicular to V.P, inclined at 30 degree
to H.P and passing through a point on the axis, 25mm from the base. Draw
its sectional top view and development.
2. A pentagonal pyramid side of base 30mm and height 52mm stands with itsbase on H.P and edge of base is parallel to V.P. It is cut by a plane
perpendicular to V.P, inclined at 40 degree to H.P and passing through the
point in the axis, 32mm above the base. Draw the sectional top view and
draw the lateral surface of truncated pyramid.
3. A cone of base 50mm diameter and height 65mm rests with the base on H.P.A section plane perpendicular to V.P and inclined at 30 degree to H.P bisects
the axis of the cone. Draw the development of the lateral surface of the
truncated cone.
4. A cone of base 54mm diameter and height 72mm rests with its base on H.P.A section plane perpendicular to H.P and inclined at 25 degree to the V.P
cuts the cone at a distance of 13.5mm from the axis. Draw the sectional
front view and develop the lateral surface of remaining portion of the cone.
5. A right circular cone of base 60mm diameter and 60mm height standsvertically with its base on H.P. A semicircular hole of 36mm diameter is cut
through the cone such that the axis of the hole is parallel to H.P &
perpendicular to V.P and intersecting the axis of the cone 20mm above the
base. The flat surface of the hole is parallel to H.P and perpendicular to V.P.
Draw the development of lateral surface of the cone with the hole.
7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l V
I so m e t r i c p r o j e ct i o n(Simple Position)
1. 2.
3 . 4 .
5 .
7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l V I
I so m e t r i c p r o j e ct i o n
6 . 7 .
8 . 9 .
1 0 .
7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l V I I
Sol id Model in g(Simple object)
Modeling and detailing the given object shown in figs. 1 3 and also determine
the mass of each object. Assume the density = 8 g/cm3.
1 . 2 .
3 .
7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l VI I I
Sol id Model in g(Extruded, Extruded cut, Fillet, Rib)
Modeling and detailing the given object shown in figs. 4 6 and also determine
the mass of each object. Assume the density = 8 g/cm3.
4. 5.
6 .
7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l I X
Sol id Model in g(Extruded, Extruded cut, Chamfer, Rib)
Modeling and detailing the given object shown in figs. 7 9 and also determine
the mass of each object. Assume the density = 8 g/cm3.
7 . 8 .
9 .
7/31/2019 Eg 2 Tutorial
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Engineering Graphics Laboratory , SMBS, VIT University.
Tu t o r i a l X
Sol id Model in g(Extruded, Extruded cut, Fillet, Chamfer, Rib)
Modeling and detailing the given object shown in figs. 10 12 and also
determine the mass of each object. Assume the density = 8 g/cm3.
1 0 . 1 1 .
1 2 .